Ionenstrahlsimulationen außerhalb. Martin Droba
|
|
- Sibyl McCarthy
- 6 years ago
- Views:
Transcription
1 Ionenstrahlsimulationen außerhalb verfügbarer Standardprogramme Martin Droba
2 Contents Motivation LORASR Magnetic codes TNSA LASIN Conclusion & Outlook
3 Standard Tracking Programs TRACE3D, PARMILA, PARMTEQ, LORASR, DYNAMION - Paraxial Approximation, realistic fields input -Space charge routines PIC, PPI WARP-Code Plasma simulation PIC Other IGUN
4 Motivation Realistic fields Improvements of field maps Higher space charge fields Stronger focusing Parallel implementation Clusters Modern computation methods - Parameter optimisation (PSO) - Multigrid methods Collective phenomena Multispecies (compensation electrons, LEBT, TNSA) PIC+Collisions (neutron production, ion source)
5 LORASR Present and Mid Term Code Development Topics Present activities: - Implementation of orbit corrections (steering magnets) for error studies. - Verification of the relativistic correction for the space charge fields. Midtermplans: - Field maps from numerical simulations for rf gaps and magnetic lenses Relevance: asymmetric gap geometries fringe fields (dipole magnets and short solenoids) quadrupole content of CH-gaps
6 NNP Breakingthesymmetry GaborM ( J. Pozimski& O. Meusel) (r,z) -Solver Magnetohydrodynamic Equillibria Φ A = 2 er B 8m e 2 z video11.avi Gab_lens3D-Particle-In-Cell Simulation (M.Droba, O. Meusel, K. Schulte) Particle tracking- parallel Dynamic Finite Larmor radius- effects
7 TBT (ToroidalBeam Transport) (N. Joshi, H. Niebuhr, A. Ates, M. Droba) Curved magnetic field Drifts RxB, ExB Reflexion Magnetic bottle configuration Toroidal coordinate system Ions and beam induced electrons Symplectic Integrator
8 Ion Species Separation Low energy (10keV) composited ion beam The separation between species due to curvature drift possible over long path length Separation due to phase difference in Larmor gyration
9 Code - Segments F8SR F8SR Design Biot-Savart Solver - Coil Settings 3D - Establishment of flux coordinates
10 Code - Infinity F8SR Particle tracking in flux coordinate 3D Poisson solver - Guiding center approximation - Explicit Symplectic Integrators? - Singularity on axis -> switching to real space ToDo : role of iota parameter for clockwise and counterclockwise moving beams
11 Project LIGHT Target Electron Cloud PHELI X- Laser Blowoff plasma Ions H. Schwoereret al., Nature 439, 26. Target Normal Sheath Acceleration (TNSA) -Focusing (Pulsed Solenoid ~ 18T) -Injection and Post-acceleration in CH-Structure
12 LASIN -Code Parallel PIC-program implemented on FUCHS (CSC-Cluster) Multispecies tracking (x,y,z) Poisson solver iterative BiCGSTAB method Cylindrical coordinates 3D Typically 50 Processors
13 Space charge off Successfully comparison with: DYNAMION (Yaramishev) LORASR (Ratzinger,Tiede Droba) Aberrations Chromatic - Geometric
14 LASIN Space charge Preliminary studies with space charge: - Important interaction on 1 st mm - Energy spread? - Opening angles? - Energy conservation? - Momentum transfer between Species?
15 LASIN Space charge Homogenous ellipsoid R=30µm, L=22µm Bunch equiv to protons Mesh (r,phi,z) = 250x30x10000, (dr,dphi,dz)=(6µm,0.2rad,2µm) W~10MeV
16 Simulation Protons&Electrons dt=25fs R=30µm, L=22µm Protons W=10MeV Electrons W=5.5keV Particles/1 Macroparticle=4444 =>4.5Mio Macroparticles Mesh: dr=6µm dφ=0.2rad dz=2µm
17 Simulation -Improvements t=0ps t=2.4ps dt=5fs R=30µm, L=22µm Protons W=10MeV Electrons W=5.5keV Particles/1 Macroparticle=4444 =>4.5Mio Macroparticles Mesh: dr=6µm dφ=0.2rad dz=2µm Less separation Lower electric fields and potential
18 LASIN Kinetic Energy Plasma oscillation longitudinally Along magnetic field Due to the higher magnetic field in propagation direction Redistribution of longitudinal momentum To the transverse direction
19 Potential t=2.25ps t=0s t=1ps t=1.5ps
20 LASIN -Energy Ratio variation of total energy/energy (~ 3ps) -Less comparing with previous case 6% -Due to the variation of magnetic field? -Using different type of integrators -Longer simulation needed -Cyclotron frequency ->characteristic time τ c =6e-12s -Plasma frequency -> characteristic time τ= 3.5e-13s -Debye length λ D =0.2µm New strategy -> finer mesh dual mesh
21 Conclusion & Outlook Dynamic in strong magnetic field (Solenoids, Toroids& Fringing fields+ magnetic coupling) Collective phenomena (Gabor Lens, electrons&ions) Correction coils Space-charge effects & Aberrations Experience -> Development of efficient simulation and design tools for future Linacs
22 Thank you for your attention
Dr. Martin Droba Darmstadt
Numerical Models for NNP Confinement Dr. Martin Droba Darmstadt 11.2.2008 Contents l NNP (Non-neutral Plasma) l Motivation l High current ring l Codes l Diocotron Instabillity and Diagnostic l Toroidal
More informationBunch Compressor for Intense Proton Beams
Bunch Compressor for Intense Proton Beams L.P. Chau, M. Droba, O. Meusel, D. Noll, U. Ratzinger, C. Wiesner chau@iap.uni-frankfurt.de LINAC10, Tsukuba, Japan 2010/09/16 Outlines: o Frankfurt Neutron Source
More informationFigure-8 Storage RingF8SRNon Neutral Plasma Confinement in Curvilinear Guiding Fields
Figure-8 Storage Ring F8SR Non Neutral Plasma Confinement in Curvilinear Guiding Fields Joschka F. Wagner Institute of Applied Physics (IAP) Workgroup Prof. Ulrich Ratzinger Non Neutral Plasma-Group (NNP)
More informationChopping High-Intensity Ion Beams at FRANZ
Chopping High-Intensity Ion Beams at FRANZ C. Wiesner, M. Droba, O. Meusel, D. Noll, O. Payir, U. Ratzinger, P. Schneider IAP, Goethe-Universität Frankfurt am Main Outline 1) Introduction: The FRANZ facility
More informationContents Motivation Particle In Cell Method Projects Plasma and Ion Beam Simulations
PIC Method for Numerical Simulation Ninad Joshi NNP Group 1 Contents Motivation Particle In Cell Method Projects Plasma and Ion Beam Simulations Motivation 3 Particle simulation Ion beams and Plasmas Accelerators
More informationBuncher-System for FRANZ
Buncher-System for FRANZ Concept Beam-Dynamics Chopper-System Buncher-System for FRANZ 150 kv Terminal Wb = 120 kev Pb = 2.4 x 104 W Wb = 1 MeV Pb,max = 1 x 104 W Wb = 1.87-2.1 MeV Pb,max = 2.1 x 104 W
More information$)ODW%HDP(OHFWURQ6RXUFHIRU/LQHDU&ROOLGHUV
$)ODW%HDP(OHFWURQ6RXUFHIRU/LQHDU&ROOLGHUV R. Brinkmann, Ya. Derbenev and K. Flöttmann, DESY April 1999 $EVWUDFW We discuss the possibility of generating a low-emittance flat (ε y
More informationCharged particle motion in external fields
Chapter 2 Charged particle motion in external fields A (fully ionized) plasma contains a very large number of particles. In general, their motion can only be studied statistically, taking appropriate averages.
More informationIntroduction Frankfurt Neutron Source at Stern-Gerlach-Zentrum FRANZ Development of new accelerator concepts for intense proton and ion beams. High in
2009/12/16 Proton Linac for the Frankfurt Neutron Source Christoph Wiesner Introduction Frankfurt Neutron Source at Stern-Gerlach-Zentrum FRANZ Development of new accelerator concepts for intense proton
More informationLIGHT. ...from laser ion acceleration to future applications. - project overview and lates experimental results -
LIGHT...from laser ion acceleration to future applications - project overview and lates experimental results - 1st European Advanced Accelerator Concepts Workshop La Biodola, Isola d'elba 2nd 7th June
More informationORBIT Code Review and Future Directions. S. Cousineau, A. Shishlo, J. Holmes ECloud07
ORBIT Code Review and Future Directions S. Cousineau, A. Shishlo, J. Holmes ECloud07 ORBIT Code ORBIT (Objective Ring Beam Injection and Transport code) ORBIT is an object-oriented, open-source code started
More informationSPACE CHARGE EFFECTS AND FOCUSING METHODS FOR LASER ACCELERATED ION BEAMS
SPACE CHARGE EFFECTS AND FOCUSING METHODS FOR LASER ACCELERATED ION BEAMS Peter Schmidt 1,2, Oliver Boine-Frankenheim 1,2, Vladimir Kornilov 1, Peter Spädtke 1 [1] GSI Helmholtzzentrum für Schwerionenforschung
More informationS9: Momentum Spread Effects and Bending S9A: Formulation
S9: Momentum Spread Effects and Bending S9A: Formulation Except for brief digressions in S1 and S4, we have concentrated on particle dynamics where all particles have the design longitudinal momentum at
More informationTransverse dynamics Selected topics. Erik Adli, University of Oslo, August 2016, v2.21
Transverse dynamics Selected topics Erik Adli, University of Oslo, August 2016, Erik.Adli@fys.uio.no, v2.21 Dispersion So far, we have studied particles with reference momentum p = p 0. A dipole field
More informationIntroduction to accelerators for teachers (Korean program) Mariusz Sapiński CERN, Beams Department August 9 th, 2012
Introduction to accelerators for teachers (Korean program) Mariusz Sapiński (mariusz.sapinski@cern.ch) CERN, Beams Department August 9 th, 2012 Definition (Britannica) Particle accelerator: A device producing
More informationAccelerator Physics. Tip World Scientific NEW JERSEY LONDON SINGAPORE BEIJING SHANGHAI HONG KONG TAIPEI BANGALORE. Second Edition. S. Y.
Accelerator Physics Second Edition S. Y. Lee Department of Physics, Indiana University Tip World Scientific NEW JERSEY LONDON SINGAPORE BEIJING SHANGHAI HONG KONG TAIPEI BANGALORE Contents Preface Preface
More informationComputations on Gabor lens having two different field distributions
IOSR Journal of Applied Physics (IOSR-JAP) e-issn: 2278-4861.Volume 6, Issue 6 Ver. II (Nov.-Dec. 2014), PP 06-11 Computations on Gabor lens having two different field distributions Saif KamilShnain Department
More informationCompressor Lattice Design for SPL Beam
EUROPEAN ORGANIZATION FOR NUCLEAR RESEARCH CERN A&B DIVISION AB-Note-27-34 BI CERN-NUFACT-Note-153 Compressor Lattice Design for SPL Beam M. Aiba Abstract A compressor ring providing very short proton
More informationBeam dynamics studies for PITZ using a 3D full-wave Lienard-Wiechert PP code
Beam dynamics studies for PITZ using a 3D full-wave Lienard-Wiechert PP code Y. Chen, E. Gjonaj, H. De Gersem, T. Weiland TEMF, Technische Universität Darmstadt, Germany DESY-TEMF Collaboration Meeting
More informationNumerical Methods II
Numerical Methods II Kevin Li With acknowledgements to: H. Bartosik, X. Buffat, L.R. Carver, S. Hegglin, G. Iadarola, L. Mether, E. Metral, N. Mounet, A. Oeftiger, A. Romano, G. Rumolo, B. Salvant, M.
More informationErzeugung intensiver Protonenpulse durch Kompression
Erzeugung intensiver Protonenpulse durch Kompression L.P. Chau, M. Droba, O. Meusel, D. Noll, U. Ratzinger, C. Wiesner chau@iap.uni-frankfurt.de MAMI-Seminar, Mainz, Germany 2010/05/06 Outlines: o FRANZ:
More informationBeam Dynamics and Emittance Growth
2010/03/09 Beam Dynamics and Emittance Growth Christoph Wiesner 1. Solenoidal Focusing and Emittance Growth 2. Beam Deflection and Emittance Growth 3. Time-dependent Kicker Fields, Electron Effects and
More informationCOMPARISON OF TRACKING SIMULATION WITH EXPERIMENT ON THE GSI UNILAC
COMPARISON OF TRACKING SIMULATION WITH EXPERIMENT ON THE GSI UNILAC X.Yin 1,2, L. Groening 2, I. Hofmann 2, W. Bayer 2, W. Barth 2,S.Richter 2, S. Yaramishev 2, A. Franchi 3, A. Sauer 4 1 Institute of
More informationProton LINAC for the Frankfurt Neutron Source FRANZ
Proton LINAC for the Frankfurt Neutron Source FRANZ - IAEA - International Topical Meeting on Nuclear Research Applications and Utilization of Accelerators Oliver Meusel 4-8 May 2009 Vienna, Austria Motivation
More informationWeak focusing I. mv r. Only on the reference orbit is zero
Weak focusing I y x F x mv r 2 evb y Only on the reference orbit is zero r R x R(1 x/ R) B y R By x By B0y x B0y 1 x B0 y x R Weak focusing (II) Field index F x mv R 2 x R 1 n Betatron frequency 2 Fx mx
More informationIntroduction to electron and photon beam physics. Zhirong Huang SLAC and Stanford University
Introduction to electron and photon beam physics Zhirong Huang SLAC and Stanford University August 03, 2015 Lecture Plan Electron beams (1.5 hrs) Photon or radiation beams (1 hr) References: 1. J. D. Jackson,
More informationSingle Particle Motion
Single Particle Motion Overview Electromagnetic fields, Lorentz-force, gyration and guiding center, drifts, adiabatic invariants. Pre-requisites: Energy density of the particle population smaller than
More informationMAGNETIC PROBLEMS. (d) Sketch B as a function of d clearly showing the value for maximum value of B.
PHYS2012/2912 MAGNETC PROBLEMS M014 You can investigate the behaviour of a toroidal (dough nut shape) electromagnet by changing the core material (magnetic susceptibility m ) and the length d of the air
More informationPhysics 610. Adv Particle Physics. April 7, 2014
Physics 610 Adv Particle Physics April 7, 2014 Accelerators History Two Principles Electrostatic Cockcroft-Walton Van de Graaff and tandem Van de Graaff Transformers Cyclotron Betatron Linear Induction
More informationSTUDY ON SPACE CHARGE COMPENSATION OF LOW ENERGY HIGH INTENSITY ION BEAM IN PEKING UNIVERSITY*
STUDY ON SPACE CHARGE COMPENSATION OF LOW ENERGY HIGH INTENSITY ION BEAM IN PEKING UNIVERSITY* S. X. Peng 1,, A. L. Zhang 1, 2, H. T. Ren 1, T. Zhang 1, J. F. Zhang 1, Y. Xu 1, J. M. Wen 1, W. B. Wu 1,
More informationPhysics at Accelerators
Physics at Accelerators Course outline: The first 4 lectures covers the physics principles of accelerators. Preliminary plan: Lecture 1: Accelerators, an introduction. Acceleration principles. Lecture
More information!"#$%$!&'()$"('*+,-')'+-$#..+/+,0)&,$%.1&&/$ LONGITUDINAL BEAM DYNAMICS
LONGITUDINAL BEAM DYNAMICS Elias Métral BE Department CERN The present transparencies are inherited from Frank Tecker (CERN-BE), who gave this course last year and who inherited them from Roberto Corsini
More informationAccelerator Physics Issues of ERL Prototype
Accelerator Physics Issues of ERL Prototype Ivan Bazarov, Geoffrey Krafft Cornell University TJNAF ERL site visit (Mar 7-8, ) Part I (Bazarov). Optics. Space Charge Emittance Compensation in the Injector
More informationComparison of simulated and observed beam profile broadening in the Proton Storage Ring and the role of space charge
PHYSICAL REVIEW SPECIAL TOPICS - ACCELERATORS AND BEAMS, VOLUME 3, 3421 (2) Comparison of simulated and observed beam profile broadening in the Proton Storage Ring and the role of space charge J. D. Galambos,
More informationAnalysis of Slice Transverse Emittance Evolution in a Photocathode RF Gun. Abstract
SLAC PUB 868 October 7 Analysis of Slice Transverse Emittance Evolution in a Photocathode RF Gun Z. Huang, Y. Ding Stanford Linear Accelerator Center, Stanford, CA 9439 J. Qiang Lawrence Berkeley National
More informationUsing IMPACT T to perform an optimization of a DC gun system Including merger
Using IMPACT T to perform an optimization of a DC gun system Including merger Xiaowei Dong and Michael Borland Argonne National Laboratory Presented at ERL09 workshop June 10th, 2009 Introduction An energy
More informationS2E: Solenoidal Focusing
S2E: Solenoidal Focusing Writing out explicitly the terms of this expansion: The field of an ideal magnetic solenoid is invariant under transverse rotations about it's axis of symmetry (z) can be expanded
More informationS2E: Solenoidal Focusing
S2E: Solenoidal Focusing The field of an ideal magnetic solenoid is invariant under transverse rotations about it's axis of symmetry (z) can be expanded in terms of the on axis field as as: solenoid.png
More informationMeasurement and Compensation of Betatron Resonances at the CERN PS Booster Synchrotron
Measurement and Compensation of Betatron Resonances at the CERN PS Booster Synchrotron Urschütz Peter (AB/ABP) CLIC meeting, 29.10.2004 1 Overview General Information on the PS Booster Synchrotron Motivation
More informationExternal injection of electron bunches into plasma wakefields
External injection of electron bunches into plasma wakefields Studies on emittance growth and bunch compression p x x Timon Mehrling, Julia Grebenyuk and Jens Osterhoff FLA, Plasma Acceleration Group (http://plasma.desy.de)
More informationLattice Design and Performance for PEP-X Light Source
Lattice Design and Performance for PEP-X Light Source Yuri Nosochkov SLAC National Accelerator Laboratory With contributions by M-H. Wang, Y. Cai, X. Huang, K. Bane 48th ICFA Advanced Beam Dynamics Workshop
More informationPreliminary Simulation of Beam Extraction for the 28 GHz ECR Ion Source
Preliminary Simulation of Beam Extraction for the 28 GHz ECR Ion Source Bum-Sik Park*, Yonghwan Kim and Seokjin Choi RISP, Institute for Basic Science, Daejeon 305-811, Korea The 28 GHz ECR(Electron Cyclotron
More informationDEVELOPMENT OF LARGE SCALE OPTIMIZATION TOOLS FOR BEAM TRACKING CODES*
Proceedings of Hadron Beam 8, Nashville, Tennessee, USA DEVELOPMENT OF LARGE SCALE OPTIMIZATION TOOLS FOR BEAM TRACKING CODES* B. Mustapha # and P. N. Ostroumov Argonne National Laboratory, 97 S. Cass
More informationIntroduction Introduction
1 Introduction This book is an introduction to the theory of charged particle acceleration. It has two primary roles: 1.A unified, programmed summary of the principles underlying all charged particle accelerators.
More informationMultiparameter optimization of an ERL. injector
Multiparameter optimization of an ERL injector R. Hajima a, R. Nagai a a Japan Atomic Energy Research Institute, Tokai-mura, Ibaraki 319 1195 Japan Abstract We present multiparameter optimization of an
More informationModeling of Space Charge Effects and Coherent Synchrotron Radiation in Bunch Compression Systems. Martin Dohlus DESY, Hamburg
Modeling of Space Charge Effects and Coherent Synchrotron Radiation in Bunch Compression Systems Martin Dohlus DESY, Hamburg SC and CSR effects are crucial for design & simulation of BC systems CSR and
More informationNUMERICAL MODELING OF FAST BEAM ION INSTABILITIES
NUMERICAL MODELING OF FAST BEAM ION INSTABILITIES L. Mether, G. Iadarola, G. Rumolo, CERN, Geneva, Switzerland Abstract The fast beam ion instability may pose a risk to the operation of future electron
More informationSimulations of the IR/THz Options at PITZ (High-gain FEL and CTR)
Case Study of IR/THz source for Pump-Probe Experiment at the European XFEL Simulations of the IR/THz Options at PITZ (High-gain FEL and CTR) Introduction Outline Simulations of High-gain FEL (SASE) Simulation
More informationDevelopment of 2D particle-in-cell code to simulate high current, low energy beam in a beam transport system
PRAMANA c Indian Academy of Sciences Vol. 9, No. journal of October 7 physics pp. 551 5 Development of D particle-in-cell code to simulate high current, low energy beam in a beam transport system S C L
More informationGeometry Optimization of DC and SRF Guns to Maximize Beam Brightness
Geometry Optimization of and SRF Guns to Maximize Beam Brightness M.N. Lakshmanan and I.V. Bazarov, CLASSE, Cornell University, Ithaca, NY 14853, USA T. Miyajima, Photon Factory, KEK, Tsukuba, Japan Abstract
More informationSmall Isochronous Ring (SIR) project at NSCL, MSU. Eduard Pozdeyev NSCL, Michigan Sate University
Small Isochronous Ring (SIR) project at NSCL, MSU Eduard Pozdeyev NSCL, Michigan Sate University Talk Outline Isochronous regime in accelerators, application to Isochronous Cyclotrons Space charge effects
More informationAdditional Heating Experiments of FRC Plasma
Additional Heating Experiments of FRC Plasma S. Okada, T. Asai, F. Kodera, K. Kitano, T. Suzuki, K. Yamanaka, T. Kanki, M. Inomoto, S. Yoshimura, M. Okubo, S. Sugimoto, S. Ohi, S. Goto, Plasma Physics
More informationA Low Energy Beam Transport Design with high SCC for TAC Proton Accelerator
A Low Energy Beam Transport Design with high SCC for TAC Proton Accelerator * A. Caliskan 1, H. F. Kisoglu 2, S. Sultansoy 3,4, M. Yilmaz 5 1 Department of Engineering Physics, Gumushane University, Gumushane,
More informationCEA Saclay Codes Review for High Intensities Linacs Computations
CEA Saclay Codes Review for High Intensities Linacs Computations Romuald Duperrier, Nicolas Pichoff, Didier Uriot CEA, 91191 Gif sur Yvette Cedex, France rduperrier@cea.fr; npichoff@cea.fr; duriot@cea.fr
More informationarxiv: v2 [physics.acc-ph] 18 Nov 2015
International Journal of Modern Physics: Conference Series c The Authors arxiv:1511.0039v [physics.acc-ph] 18 Nov 015 Studies of systematic limitations in the EDM searches at storage rings Artem Saleev
More informationThomX Machine Advisory Committee. (LAL Orsay, March ) Ring Beam Dynamics
ThomX Machine Advisory Committee (LAL Orsay, March 20-21 2017) Ring Beam Dynamics A. Loulergue, M. Biagini, C. Bruni, I. Chaikovska I. Debrot, N. Delerue, A. Gamelin, H. Guler, J. Zang Programme Investissements
More informationFirst propositions of a lattice for the future upgrade of SOLEIL. A. Nadji On behalf of the Accelerators and Engineering Division
First propositions of a lattice for the future upgrade of SOLEIL A. Nadji On behalf of the Accelerators and Engineering Division 1 SOLEIL : A 3 rd generation synchrotron light source 29 beamlines operational
More informationIII. CesrTA Configuration and Optics for Ultra-Low Emittance David Rice Cornell Laboratory for Accelerator-Based Sciences and Education
III. CesrTA Configuration and Optics for Ultra-Low Emittance David Rice Cornell Laboratory for Accelerator-Based Sciences and Education Introduction Outline CESR Overview CESR Layout Injector Wigglers
More informationCSR calculation by paraxial approximation
CSR calculation by paraxial approximation Tomonori Agoh (KEK) Seminar at Stanford Linear Accelerator Center, March 3, 2006 Short Bunch Introduction Colliders for high luminosity ERL for short duration
More informationDesign of a Low-Energy Chopper System for FRANZ
05.03.2007 Design of a Low-Energy System for FRANZ Christoph Wiesner Contents Introduction Design and Layout of the Multi-Particle Simulation LEBT Outlook Function of the Input: 150 ma cw proton beam,
More informationLinac Beam Dynamics Code Benchmarking
Journal of Modern Physics, 2015, 6, 1044-1050 Published Online July 2015 in SciRes. http://www.scirp.org/journal/jmp http://dx.doi.org/10.4236/jmp.2015.68108 Linac Beam Dynamics Code Benchmarking Xuejun
More informationS1: Particle Equations of Motion S1A: Introduction: The Lorentz Force Equation
S1: Particle Equations of Motion S1A: Introduction: The Lorentz Force Equation The Lorentz force equation of a charged particle is given by (MKS Units):... particle mass, charge... particle coordinate...
More informationTheory English (Official)
Q3-1 Large Hadron Collider (10 points) Please read the general instructions in the separate envelope before you start this problem. In this task, the physics of the particle accelerator LHC (Large Hadron
More informationEvaluating the Emittance Increase Due to the RF Coupler Fields
Evaluating the Emittance Increase Due to the RF Coupler Fields David H. Dowell May 2014 Revised June 2014 Final Revision November 11, 2014 Abstract This technical note proposes a method for evaluating
More informationDevelopment of the UNILAC towards a Megawatt Beam Injector
Development of the UNILAC towards a Megawatt Beam Injector W. Barth, GSI - Darmstadt 1. GSI Accelerator Facility Injector for FAIR 2. Heavy Ion Linear Accelerator UNILAC 3. SIS 18 Intensity Upgrade Program
More informationStorage Ring Based EDM Search Achievements and Goals
Mitglied der Helmholtz-Gemeinschaft Storage Ring Based EDM Search Achievements and Goals October 20, 2014 Andreas Lehrach RWTH Aachen University & Forschungszentrum Jülich on behalf of the JEDI collaboration
More informationDesign of a Fast Chopper System for High Intensity Applications
2007/05/11 Design of a Fast System for High Intensity Applications Christoph Wiesner IAP Frankfurt Contents Introduction Design and Layout of the Multi-Particle Simulation LEBT Outlook Frankfurt Neutron
More informationElectron Trapping in High-Current Ion Beam Pipes
SLAC-PUB-8367 March 2000 Electron Trapping in High-Current Ion Beam Pipes W. B. Herrmannsfeldt Contributed to 13th Internation Symposium on Heavy Ion Inertial Fusion, 3/13/2000-3/17/2000, San Diego, CA,
More information1. Write the relation for the force acting on a charge carrier q moving with velocity through a magnetic field in vector notation. Using this relation, deduce the conditions under which this force will
More informationDevelopment of Large Scale Optimization Tools for Beam Tracking Codes
Development of Large Scale Optimization Tools for Beam Tracking Codes 42 nd ICFA Advanced Beam Dynamics Workshop: High-Intensity, High-Brightness Hadron Beams HB-2008, August 25-29, 2008 Nashville, Tennessee,
More informationFundamental Concepts of Particle Accelerators V : Future of the High Energy Accelerators. Koji TAKATA KEK. Accelerator Course, Sokendai
.... Fundamental Concepts of Particle Accelerators V : Future of the High Energy Accelerators Koji TAKATA KEK koji.takata@kek.jp http://research.kek.jp/people/takata/home.html Accelerator Course, Sokendai
More informationTUNE SPREAD STUDIES AT INJECTION ENERGIES FOR THE CERN PROTON SYNCHROTRON BOOSTER
TUNE SPREAD STUDIES AT INJECTION ENERGIES FOR THE CERN PROTON SYNCHROTRON BOOSTER B. Mikulec, A. Findlay, V. Raginel, G. Rumolo, G. Sterbini, CERN, Geneva, Switzerland Abstract In the near future, a new
More information3. Particle accelerators
3. Particle accelerators 3.1 Relativistic particles 3.2 Electrostatic accelerators 3.3 Ring accelerators Betatron // Cyclotron // Synchrotron 3.4 Linear accelerators 3.5 Collider Van-de-Graaf accelerator
More informationFACET-II Design Update
FACET-II Design Update October 17-19, 2016, SLAC National Accelerator Laboratory Glen White FACET-II CD-2/3A Director s Review, August 9, 2016 Planning for FACET-II as a Community Resource FACET-II Photo
More informationTolerances for magnetic fields in the Gun-To-Linac region of the LCLS Injector *
Tolerances for magnetic fields in the Gun-To-Linac region of the LCLS Injector * C.Limborg-Deprey January 10, 2006 Abstract In this technical note, we review the computations which led to the tolerances
More informationPhysical Principles of Electron Microscopy. 2. Electron Optics
Physical Principles of Electron Microscopy 2. Electron Optics Ray Egerton University of Alberta and National Institute of Nanotechnology Edmonton, Canada www.tem-eels.ca regerton@ualberta.ca Properties
More informationThe LHC: the energy, cooling, and operation. Susmita Jyotishmati
The LHC: the energy, cooling, and operation Susmita Jyotishmati LHC design parameters Nominal LHC parameters Beam injection energy (TeV) 0.45 Beam energy (TeV) 7.0 Number of particles per bunch 1.15
More informationConfinement of toroidal non-neutral plasma
10th International Workshop on Non-neutral Plasmas 28 August 2012, Greifswald, Germany 1/20 Confinement of toroidal non-neutral plasma in magnetic dipole RT-1: Magnetospheric plasma experiment Visualized
More information3D Space Charge Routines: The Software Package MOEVE and FFT Compared
3D Space Charge Routines: The Software Package MOEVE and FFT Compared Gisela Pöplau DESY, Hamburg, December 4, 2007 Overview Algorithms for 3D space charge calculations Properties of FFT and iterative
More informationNotes on the HIE-ISOLDE HEBT
EUROPEAN ORGANIZATION FOR NUCLEAR RESEARCH HIE-ISOLDE-PROJECT-Note-13 Notes on the HIE-ISOLDE HEBT M.A. Fraser Abstract The HEBT will need to transfer the beam from the HIE-ISOLDE linac to up to four experimental
More informationBeam Dynamics for CSNS Linac. Jun Peng September. 18, 2012
Beam Dynamics for CSNS Linac Jun Peng September. 18, 2012 Outline Beam loss study MEBT optimization DTL optimization Geometry Accelerating field and synchronous phase Focusing scheme End to end simulation
More informationIssues of Electron Cooling
Issues of Electron Cooling Yaroslav Derbenev derbenev@jlab.org JLEIC Spring 2016 Collaboration Meeting JLab, March 29-31, 2016 Outline Friction force Magnetized cooling Misalignment impact Cooling rates
More informationConfinement of toroidal non-neutral plasma in Proto-RT
Workshop on Physics with Ultra Slow Antiproton Beams, RIKEN, March 15, 2005 Confinement of toroidal non-neutral plasma in Proto-RT H. Saitoh, Z. Yoshida, and S. Watanabe Graduate School of Frontier Sciences,
More informationAn Introduction to Particle Accelerators. v short
An Introduction to Particle Accelerators v1.42 - short LHC FIRST BEAM 10-sep-2008 Introduction Part 1 Particle accelerators for HEP LHC: the world biggest accelerator, both in energy and size (as big as
More informationBernhard Holzer, CERN-LHC
Bernhard Holzer, CERN-LHC * Bernhard Holzer, CERN CAS Prague 2014 x Liouville: in reasonable storage rings area in phase space is constant. A = π*ε=const x ε beam emittance = woozilycity of the particle
More informationContents. LC : Linear Collider. µ-µ Collider. Laser-Plasma Wave Accelerator. Livingston Chart 6 References
.... Fundamental Concepts of Particle Accelerators V : Future of the High Energy Accelerators VI : References Koji TAKATA KEK koji.takata@kek.jp http://research.kek.jp/people/takata/home.html Accelerator
More informationAccelerators Ideal Case
Accelerators Ideal Case Goal of an accelerator: increase energy of CHARGED par:cles Increase energy ΔE = r 2 F dr = q ( E + v B)d r The par:cle trajectory direc:on dr parallel to v ΔE = increase of energy
More informationEmittance preservation in TESLA
Emittance preservation in TESLA R.Brinkmann Deutsches Elektronen-Synchrotron DESY,Hamburg, Germany V.Tsakanov Yerevan Physics Institute/CANDLE, Yerevan, Armenia The main approaches to the emittance preservation
More informationThe TESLA Dogbone Damping Ring
The TESLA Dogbone Damping Ring Winfried Decking for the TESLA Collaboration April 6 th 2004 Outline The Dogbone Issues: Kicker Design Dynamic Aperture Emittance Dilution due to Stray-Fields Collective
More informationConceptual design of an energy recovering divertor
Conceptual design of an energy recovering divertor Derek Baver Lodestar Research Corporation Conceptual design of an energy recovering divertor, D. A. Baver, Lodestar Research Corporation. Managing divertor
More informationA Three Dimensional Simulation of Solitary Waves in the Laser Wake
A Three Dimensional Simulation of Solitary Waves in the Laser Wake T. Esirkepov 1 ' 2, K. Nishihara 2, S. Bulanov 3, F. Pegoraro 4, F. Kamenets 1, N. Knyazev 1 1 Moscow Institute of Physics that arises
More informationmodeling of space charge effects and CSR in bunch compression systems
modeling of space charge effects and CSR in bunch compression systems SC and CSR effects are crucial for the simulation of BC systems CSR and related effects are challenging for EM field calculation non-csr
More informationChapter 27 Sources of Magnetic Field
Chapter 27 Sources of Magnetic Field In this chapter we investigate the sources of magnetic of magnetic field, in particular, the magnetic field produced by moving charges (i.e., currents). Ampere s Law
More information3. Synchrotrons. Synchrotron Basics
1 3. Synchrotrons Synchrotron Basics What you will learn about 2 Overview of a Synchrotron Source Losing & Replenishing Electrons Storage Ring and Magnetic Lattice Synchrotron Radiation Flux, Brilliance
More informationSC forces RMS Envelope SC Child Langmuir law SCC Simulation Codes LEBT Simulation
Space Charge Effects N. Chauvin Commissariat à l Energie Atomique et aux Energies Alternatives, DSM/Irfu; F-91191 Gif-sur-Yvette, France. Nicolas.Chauvin@cea.fr May 31, 2012 N. Chauvin Space Charge Effects
More informationMAGNETIC EFFECT OF CURRENT
MAGNETIC EFFECT OF CURRENT VERY SHORT ANSWER QUESTIONS Q.1 Who designed cyclotron? Q.2 What is the magnetic field at a point on the axis of the current element? Q.3 Can the path of integration around which
More informationFundamental Concepts of Particle Accelerators V: Future of the High Energy Accelerators VI: References. Koji TAKATA KEK. Accelerator Course, Sokendai
.... Fundamental Concepts of Particle Accelerators V: Future of the High Energy Accelerators VI: References Koji TAKATA KEK koji.takata@kek.jp http://research.kek.jp/people/takata/home.html Accelerator
More information03.lec Solenoid Focusing*
03.lec Solenoid Focusing* Prof. Steven M. Lund Physics and Astronomy Department Facility for Rare Isotope Beams (FRIB) Michigan State University (MSU) PHY 905 Lectures Steven M. Lund and Yue Hao Michigan
More informationA New Resonance for Ecloud Physics in the ILC DR Wiggler
A New Resonance for Ecloud Physics in the ILC DR Wiggler Christine Celata Dec. 18, 2007 with collaborators: Miguel Furman Jean-Luc Vay Jennifer Yu (summer student) Lawrence Berkeley National Laboratory
More informationSPARCLAB. Source For Plasma Accelerators and Radiation Compton with Laser And Beam
SPARCLAB Source For Plasma Accelerators and Radiation Compton with Laser And Beam EMITTANCE X X X X X X X X Introduction to SPARC_LAB 2 BRIGHTNESS (electrons) B n 2I nx ny A m 2 rad 2 The current can be
More information